Activity Report 2010 - CNRS

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2008 Call for Proposals Name Nationality Duration FULL TIME Major topic Description From Starting on Implantable computer –brain interface Tetiana AKSENOVA Russian 3 years Nano approaches to Life Sciences T. Aksenova is a leading expert in the field of machine learning and real time signal processing. She invented several innovative approaches for signal processing, classification and modeling that will be used for Brain Computer Interface design. National Academy of Sciences (Ukraine) Novemb. 2008 PART TIME Alexander ZASLAVSKY American 3m/year x3 Quantum Nanoelectronics Tunneling-based nano-FETs A. Zaslavsky conducts research on devices that could supplement the current silicon transistor-based microelectronics technology. Brown University (USA) June 2009 SUPPLEMENTS Marcelo FRANCA SANTOS Brazilian 3m/year x3 Leonardo FONSECA Brazilian 6m/ 3 years Nanophotonics Nanosimulation 2009 Call for Proposals Emission Properties Of a semiconducting Cavity coupled to an Artifical atom M. Franca Santos is a theoretician specialized in quantum optics and cavity QED. Nanometric Devices calculated ab initio L. Fonseca is an expert in theory and modeling of nanostructures. University of Belo Horizonte (Brazil) W. Von Braun Center (Brazil) July 2009 Novemb. 2010 Name Nationality Duration PART TIME Major topic Description From SuperNanoCharach Starting on John KIRTLEY American 3m/year x 3 Nanocharacterisation J. Kirtley, one of the world’s leading experts on Josephson junction devices and superconductivity. For the past dozen years, he has developed the technique of scanning SQUID microscopy and used the resulting novel instruments for fundamental studies. This project aims to achieving the nanocharacterisation of superconducting nanostructures. Stanford University (USA) April 2010 II-VI Photovoltaic Yong ZHANG American 2m/year x 2 Nanophotonics Y. Zhang is an expert in both optical spectroscopy and electronic structure computation, and is involved in optoelectronic applications of materials (e.g.solar cell, solid state lighting, thermoelectrics). This project aims to developing new concepts solar cells with II-VI semiconductor nanostructures. National Renewable Energy Laboratory (USA) Novemb. 2009 Normand MOUSSEAU Canadian 2m/year x 3 Nanosimulation MUSCADE N. Mousseau is an expert in theoretical and numerical studies of the structural and dynamical properties of complex materials. Through the study of three prototype systems, multiscale simulations are expected to advance the fundamental understanding of the key issues University of Montreal (Canada) Sept. 2010 14
governing the formation and stability of semiconducting quantum dots, silicon nanowires and graphene sheets. 2010 Call for Proposals Name Nationality Duration FULL TIME Major topic Description From JoQOLaT Starting on Max HOFHEINZ 3 years Quantum Nanoelectronics The new expertise in microwave quantum optics and dynamical Coulomb blockade brought by Max HOFHEINZ is at the core of this project that will include the development of various specific devices and circuits - based on his experience with superconducting quantum circuits (phase qubits and microwave resonators). IRAMIS/ SPEC, CEA Saclay (France) July 2011 PART TIME CORTRANO Harold BARANGER 9m/3 years David GRAVES 9m/3 years Nanosimulation Nanosimulation Harold BARANGER has a track record of making connections between theorists working with computational techniques and those making analytic progress. He will bring specific expertise in several computational and theoretical areas: path-integral quantum Monte Carlo simulation, molecular electronics using DFT combined with one-body Green function and in particular one of the first applications to spintronics. NSCGP This project is to benefit from the expertise of Prof. David GRAVES in the field of Molecular Dynamic Simulations applied to plasma-surface interactions. The goal is to determine under which plasma conditions graphene layers can be etched without damage. If it succeeds it will provide a technology to get the high quality samples that are required for fundamental studies of graphene properties as well as the possibility to pattern large area wafers for industrial applications. Duke University (USA) Berkeley University (USA) June 2011 June 2011 SUPPLEMENTS NISHI CHAIR Yoshio NISHI 9m/3 years Nanomaterials Yoshio NISHI and his team at Stanford have a strong expertise in the field of MOS devices and technology and have made recent breakthroughs in the technology of Ge channel NMOS devices. The know-how of Prof. Nishi regarding Ge material, Metallic source and drains MOSFET will strongly benefit to the local community and will allow making significant progress in terms of technological and scientific aspects. Stanford University (USA) April 2011 3D-CDI Jian-Min ZUO 9m/3 years Nanocharacterisation At University of Illinois, Prof. Jian Min ZUO has dedicated the past 8 years on the development of electron Coherent Diffractive Imaging (CDI) for structure characterization of nanoparticles and carbon nanotubes. This project on semiconductor, oxide nanowires, and organic nanostructures provides a further opportunity to broaden the application of electron CDI and to improve 3D coherent diffractive imaging with comparison with synchrotron. University of Illinois (USA) May 2011 15
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Date of publication: May 2011 We wo
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Nanosciences Foundation Activity Re
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Part I: ACHIEVEMENTS & PROSPECTS Th
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THE NANOSCIENCES FOUNDATION AT THE
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OUTSTANDING BENEFITS CATALYZED BY T
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The laureates of the 2010 Chairs of
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‘Mobilité d’Excellence’: a n
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INTEGRATION ON SITE BETWEEN BASIC R
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OVERVIEW Fig.3: LANEF framework. Ba
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The Nanosciences Foundation budget
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The evolution of the funding progra
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OVERVIEW Fig. 6: Total number of vi
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ACKNOWLEDGEMENTS One couldn’t fin
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Part II: SCIENTIFIC REPORT 1 - QUAN
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1 - QUANTUM NANOELECTRONICS Moore
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Core/shell nanowires: conductance C
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2 - NANOMAGNETISM AND SPINTRONICS B
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than 10 8 V/m and to compare this t
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sites. The calculations indicate th
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3 - NANOPHOTONICS The optical prope
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Cavity-feeding : decoherence as a r
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4 - MOLECULAR ELECTRONICS Molecular
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5 - NANOMATERIALS, NANOASSEMBLY AND
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Phase-change memory RTRA Project 20
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6 - NANO- CHARACTERISATION AND NANO
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when compared, for example, to the
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7 - NANO APPROACHES TO LIFE SCIENCE
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Innovative biochips to detect and s
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Implantable brain computer interfac
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8 - NANOMODELING, THEORY & SIMULATI
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Growth, patterning, defects & struc
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9 - TECHNOLOGICAL FACILITIES Create
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CRG: The French Cooperative Researc
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The Numerical Simulation Facility T
Page 73 and 74: 10 - EDUCATION AND SCIENTIFIC ANIMA
Page 75 and 76: Q-NET: a new European Initial Train
Page 77 and 78: Thesis Prize Award Ceremonies 2009
Page 79 and 80: 2010 Speaker From Date Title Resear
Page 81 and 82: Workshop “Super Resolution Optica
Page 83 and 84: Workshop “Electronic Noise and Re
Page 85 and 86: Workshop « New trends in Electrica
Page 87 and 88: List of the Quantum Nanoelectronics
Page 89 and 90: Hélène LE SUEUR Laboratoire de Ph
Page 91: Quantum Nanoelectronics Seminars in
Page 94 and 95: Invitations to talk at seminars: "
Page 96 and 97: - Anton ANDREEV (University of Wash
Page 98 and 99: Cellulose Hybrid block copolymers /
Page 100 and 101: PART 3 S. J. C. Yates, J. J. A. Bas
Page 102 and 103: D. A. Stewart, I. Savic, and N. Min
Page 104 and 105: DISPOGRAPH / RTRA project Post-doct
Page 106 and 107: 2009 Call for Proposals MUSCADE Cha
Page 108 and 109: Piotr Laczkowski, Danny Hykel, Serg
Page 111: Part IV: SUPPLEMENTS Appendix 1: th
Page 114 and 115: Appendix 2: the Foundation’s boar
Page 116 and 117: Appendix 4: the Steering Committee
Page 118 and 119: RTRA projects support Major topic A
Page 120 and 121: Appendix 6: 2010 Call for Proposals
Page 122 and 123: Education and Scientific Animation
Page 126 and 127: Appendix 8: List of the Post Doc Fe
Page 128 and 129: Appendix 9: List of the PhD student
Page 130 and 131: PhD students supported in 2010 Name
Page 132 and 133: Appendix 11: List of the Reviewers
Page 134 and 135: 2010 Call for Proposals Reviewer La
Page 136 and 137: Nom du laboratoire Département de
Page 138 and 139: Nom du laboratoire GRENOBLE INSTITU
Page 140 and 141: Nom du laboratoire Institut de Micr
Page 142 and 143: Nom du laboratoire Institut Fourier
Page 144 and 145: Nom du laboratoire Institut Néel I
Page 146 and 147: Nom du laboratoire Laboratoire d'In
Page 148 and 149: Nom du laboratoire Laboratoire de P
Page 150 and 151: SUPPLEMENTS 5 : Très nombreuses vi
Page 152 and 153: Nom du laboratoire Laboratoire Inte
Page 154 and 155: Nom du laboratoire Laboratoire Nati
Page 156 and 157: Nom du laboratoire Techniques de l
Page 158 and 159: SUPPLEMENTS 48
Page 160: HIGHLIGHTS QUANTUM NANOELECTRONICS:
Page 163 and 164: FIB NANO- TOMOGRAPHY OF DEFECTS IN
Page 165 and 166: DETECTING SINGLE NANOPARTICLE MAGNE
Page 167 and 168: QUANTUM HETEROSTRUCTURES IN II-VI N
Page 169 and 170: ELECMOL’10 CONFERENCE An importan
Page 171 and 172: CRISTAL PHASE TRANSITIONS IN PRESSU
Page 173 and 174: SCANNING GATE NANOELECTRONICS In th
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CONTROL OF THERMAL CONDUCTIVITY AT
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Roland HERINO (past Director) Jean-
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